Skip to main content

Intrinsic vs Explicit motives

A look in to Intrinsic vs Explicit motives.


Deconstructing motivation and where it comes from.



In this post I'm going to deconstruct a theory about motives and what drive presides the desire to achieve a goal.

Let's start by defining the first two types of motives.
Explicit motives:
Motives that are driven by outward goals, for instance the drive to impress others, getting a new car, etc.
Implicit motives:

Motives that are driven by the inherent joy of a task,  for instance drawing, just because you like doing it.

Now when looking at your own motives behind your goals you'll probably notice that they both contain an explicit and an implicit component. Is one inherently worse than the other?
Like with a lot of things, it depends.

In a study done by Poortvliet & Darnon (2010), it was found that for people who are less competent (less skilled, familiar etc.)  it is best to be pared up with people who are intrinsically motivated to do a task.
However, when people are highly competent, extrinsically motivated people would be more likely to form a successful partnership with. 

Now let's dissect that.
Implicitly motivated people are more mastery orientated. Which means that they will respond better to feedback on a personal level. For them it revolves around: What can they do to become better than they were before.
On the contrary, explicitly motivated people respond far better to feedback which has an absolute norm. For instance, say an explicitly motivated employee's sales are below expectations.
Giving them a target to work towards will help them to want to increase their output towards the desired target.

The next part's going to get a bit weird.
So what rewarding strategies can you use to keep people motivated?
Now explicitly motivated people are inherently motivated by reward. So that's taken care of. However rewarding implicitly motivated people is a bit more complicated.

Studies done by Lepper, Green & Nisbett, (1973) explored which effects rewarding implicitly and explicitly motivated people had.
Now in this study three types of rewards where defined. Expected, unexpected and no reward. The people that stayed implicitly motivated where the people that received unexpected or no rewards (verbal compliments work just fine as well). In fact, when implicitly motivated people received rewards, it can temporarily result them being dependant on rewards to do a task!
So handing out rewards might not be as desirable as you would think.

So this was a brief summation of implicit and explicit rewards. As far as most goals are concerned, most will have an implicit and explicit component.  Congruency of motives is the most important factor. Are you getting the desired results both from the outward world as from your own inward enjoyment?
You'll find that sometimes explicit tactics will work better (if I get this done today, I'll treat myself) and other days you'll just really enjoy doing what you do.

Thank you for reading!

Also a thank you to the lectures of Nils Jostmann that sparked my interest in this subject.

POD.

References
Poortvliet & Durnon (2010).  
Toward a More Social Understanding of Achievement Goals: The Interpersonal Effects of Mastery and Performance GoalsLepper, Green & Nisbett (1973). Undermining children's intrinsic interest with extrinsic reward: A test of the "overjustification" hypothesis. Journal of Personality and Social Psychology
Nils Jostmann's lectures at UvA Science Park.






Comments

Popular posts from this blog

The nervous system and training part 1: the Neuron

The nervous system plays a role in weight training at multiple levels. It influences your state of being and how your whole body functions. The fight or flight and rest and digest mode. Today however we're diving in to a more cellular level of the nervous system the Neuron itself. We'll try to answer questions like, why does slapping your muscles before a set help increase strength? Why do 10-15 rep sets require 45-90 seconds of rest and why does a heave 1-5 rep set require up to 300 seconds? And how do neurological adaptations increase strength? Now the basic function of a neuron is to transport electric signals to either a neighbouring neuron and/or target cell. The target cell usually defines the function of the electric signaling. For instance when a motor neuron signals a muscle to contract, its axons will end up on a muscle fibre (the target) and result in muscle contraction. Thus giving us the function of a motor neuron. Neurons can also to this for the endocrine sys

Anatomy made easy(-ish) part 2: The shoulder girdle

Last time we discussed the main movements that can be viewed in the saggital plan. Main movements being flexion extension. In this article we'll focus on the shoulder girdle, the most complex set of joints in your body. Unlike the large hip joint that is able to bare strong external forces. The shoulder joint needs to work very hard for it's stability. We'll explore how the shoulders are involved in posture, why you need strong lats to be good at arm wrestling and how shoulders get depressed. So the shoulder does a lot of different movements. It elevates, depresses, rotates, tilts, retracts and protracts, flexes and extends. And it has the ability to do multiple movements at the same time! Due to the shoulders ability to move so freely, it pays the price of decreased stability. How do you solve for a decrease in stability? You slab on a lot muscle to keep it in it's place. The shoulder joint. The shoulder joint itself consists of the upper arm and the glenoid ca

Energy systems explained

So training in energy systems is quite an abstract concept. Most trainers are familiar with the aerobic, anaerobic lactic and alactic systems. But what links the systems and how do they work together? Are they always active at the same time or does your body pick and choose? And why is that if you walk your 3-4 flights of stairs everyday, you still feel out of breath when you reach your appartment? So a very important concept in explaining your energy systems is the use and recycling of ATP. ATP stands for Adenosine triphosphate. Tri being important pat in the name. Now when our cells want to create energy they do that by splitting of one phosphate group, leaving you with ADP, Adenosine DIphosphate. This leaves is with a problem because our Adenosine can't infinitely give away phosphate to create energy. So how does the body solve for this? The body has multiple methods of recycling ADP back to ATP. Let's explore this. So when your body needs glucose it attaches one of t